JP2017510480A - Improved sealant container and kit having the container - Google Patents

Abstract

A container for a sealant liquid for repairing an inflatable article, preferably a pneumatic inflatable article, includes a shell (3, 4, 6) defining an internal space (7) for the sealant liquid, and an internal space (7 ) Inlet port (2) for introducing gas into the interior by pressurization, outlet port (14) for injecting sealant liquid after pressurization of the inlet port (2), and sealant liquid in the internal space (7) Configurable in a closed position held in and an open position that is reached after the inlet port (2) is pressurized and the inlet port (2) and outlet port (14) are connected via the internal space (7) Closure unit (13). In particular, the inlet port and the outlet port are on opposite sides of the internal space (7). [Selection] Figure 1

Description

  The present invention relates to a container for a sealant solution for repairing inflatable articles, in particular pneumatic inflatable articles, and to repair and inflation kits having such containers.

  Sealant liquid containers are known that comprise a bottle and a fluid assembly connected to the bottle and having an inlet and an outlet. In particular, the inlet and outlet are arranged on the same side of the container, in the vicinity of the support and / or the mechanical and / or fluid connection of the container with the compressor, which keeps the container in use.

  As a result, the connection region between the compressor or the support and the container is relatively greatly complicated, and the shape of the compressor or support for the container and the shape of the connection with the compressor are limited. Since the necessary parts are placed very close to each other, it may be necessary to create a passage with an intricate path.

  The object of the present invention is to create a container for a sealant solution in which the above-mentioned drawbacks are eliminated.

  The object of the present invention is realized by a container for a sealant liquid according to claim 1.

  A container according to a first aspect of the present invention for solving the above problems includes a shell defining an inner space for a sealant liquid, an inlet port for introducing gas into the inner space by pressurization, and an addition of the inlet port. An outlet port for injecting the sealant liquid after pressure, a closed position where the sealant liquid is held in the internal space, and reaching after the inlet port is pressurized, and the inlet port and the outlet port are A container for sealant liquid for repairing an inflatable article, preferably a pneumatic inflatable article, comprising a closure unit configurable in an open position connected via a space, wherein said inlet port and said The outlet ports are on opposite sides of the internal space.

  A container according to a second invention for solving the above-mentioned problems is the container according to the first invention, wherein the closure unit includes an inlet fluidly connected to the inlet port, and an outlet fluidly connected to the outlet port. And at least one passage connecting the inlet and the outlet such that pressure at the inlet port is transmitted to the outlet port.

  A container according to a third invention for solving the above-mentioned problems is the container according to the second invention, wherein the closure unit has a movable element that slides along a guide, and the passage is defined by the movable element. It is characterized by being made.

  A container according to a fourth invention for solving the above-mentioned problems is the container according to the third invention, comprising a bottom part defining the inlet port and a side wall extending from the bottom part, wherein the bottom part, the side wall and the guide are It is manufactured as a single unit.

  A container according to a fifth invention for solving the above-mentioned problems is the container according to the third or fourth invention, wherein the movable element defines a further passage, and the passage fluidly connects the inlet to the internal space. The further passage connects the internal space to the outlet.

  A container according to a sixth invention for solving the above-mentioned problems is the container according to the fifth invention, wherein the passage and the further passage are fluidly connected to the internal space via first and second ports, respectively. The distance of the first port from the outlet port is shorter than the distance of the second port from the outlet port.

  A container according to a seventh invention for solving the above-mentioned problems is the container according to any one of the third to sixth inventions, wherein the shell defines a stop for determining the open position of the movable element. A cylindrical element connected to the guide is provided.

  A container according to an eighth invention for solving the above-mentioned problems is the container according to any one of the first to seventh inventions, wherein the inlet port is surrounded by a seal ring and faces the seal ring, It is characterized by comprising an enclosing annular wall.

  A container according to a ninth invention for solving the above-mentioned problems is a container according to any one of the first to eighth inventions, wherein the connection part is connected to a support part to determine the use posture of the container. The connecting portion is arranged on either side of the inlet port or the outlet port across the internal space.

  A container according to a tenth invention for solving the above-mentioned problem is the container according to any one of the first to ninth inventions, wherein the shell includes a head wall defining a cavity, and the head wall in the cavity It comprises a flexible outlet tube having a mechanically connected end.

  A kit according to the eleventh invention for solving the above-mentioned problem is a case, a fluid line provided in the case and adapted to be connected to the compressor unit, and an opening fluidly connected to the fluid line. The holding portion and the container according to any one of the first to tenth inventions, wherein the container is detachably engaged with the case, and the inlet port is connected to the opening to allow the compressed air to flow. And a container having a protrusion connectable to the holding portion so that a flow can be transmitted from the fluid line to the internal space.

  A kit according to a twelfth invention for solving the above-mentioned problems is the kit according to the eleventh invention, wherein the container includes a support portion that contacts the case when the holding portion is engaged with the protrusion. The support part surrounds the opening and the inlet port.

  A kit according to a thirteenth invention for solving the above-mentioned problems is characterized in that, in the kit according to the twelfth invention, the holding portion and the protrusion define a snap-in connection portion.

  A kit according to a fourteenth invention for solving the above-mentioned problems is the kit according to any one of the eleventh to thirteenth inventions, wherein the case includes a shell formed by injecting a polymer material. The support portion is in contact with the shell.

  The kit according to the fifteenth invention for solving the above-mentioned problems is the kit according to any one of the eleventh to fourteenth inventions, wherein when the container according to the eighth invention is provided, An annular sheet surrounding the length of the fluid line connectable to the inlet port is defined, the annular sheet accommodating the annular wall.

  Non-limiting embodiments of the present invention will now be described by way of example with reference to the accompanying drawings.

It is a perspective view of the container for sealant liquids concerning the present invention. FIG. 2 is a longitudinal sectional view of the container of FIG. 1. It is a perspective view of the compressor connectable to the container of FIG. FIG. 4 is a longitudinal cross-sectional view of a region for mechanical and fluid connections between the container of FIG. 1 and the compressor of FIG. 3.

  Reference numeral 1 in FIG. 1 denotes an entire container for a sealant liquid. The container 1 has an inlet port 2, a bottom 3 defining the inlet port 2, a side wall 4 extending from the bottom 3, and a bottom part across the side wall 4. 3 and a head portion 5 facing each other.

  The head portion 5 includes a head wall 6 fixed to the side wall 4 and defining an internal space 7, a flexible outlet tube 8 that can be directly connected to an inflatable article, preferably a pneumatic inflatable article, and the side wall 4 and / or the head. And a case 9 that is removably secured to the wall 6 and holds and protects the flexible outlet tube 8 when the container 1 is not in use. The bottom 3, the side wall 4 and the head wall 6 define a shell that holds a predetermined amount of sealant fluid suitable for repair of an inflatable article, such as a pneumatic inflatable article.

  The case 9 preferably has a storage space around which the flexible outlet tube 8 is wound when the case 9 is fixed to the side wall 4 and / or the head wall 6 and the container 1 is not used. And a concave shell defined therewith.

  The case 9 is advantageously configured such that the flexible outlet tube 8 is visible from the outside in a state in which the case 9 is fixed to the side wall 4 and / or the head wall 6. Due to such a configuration, the case 9 defines an opening 10 or a region of transparent or translucent material. As shown, case 9 is preferably a cap.

  The inlet port 2 on the opposite side in the longitudinal direction with respect to the flexible outlet tube 8 is surrounded by one seal ring 11 such as an O-ring. The seal ring 11 is surrounded by an annular wall 12. An annular wall 12 surrounds the seal ring 11 so as to face it and protects the seal ring 11 during transport and / or connection to a compressor, for example.

  The inlet port 2 and the annular wall 12 define a protrusion R on the bottom 3 that is connected to a pressurized air source as will be described later.

  In the container 1, the closure unit 13 is accommodated in the internal space 7. The closure unit 13 connects the inlet port 2 to the outlet port 14 and comprises a movable element 15. The movable element 15 reaches the closed position where the sealant liquid is held and stored in the internal space 7 and can be stored until the container 1 is used, and after the inlet port 2 is pressurized, and the inlet port 2 and the outlet port 14. Can be configured in an open position connected via the internal space 7. Next, the outlet port 14 is connected to the flexible outlet tube 8 to inject sealant liquid into the pneumatic article when the inlet port 2 is pressurized and the closure unit 13 is set to the open position. The inlet port 2 and the outlet port 14 are located at opposite ends of the internal space 7, and the sealant liquid flows through the closure unit 13 over at least the distance from the bottom 3 to the head wall 6 during injection.

  The movable element 15 preferably moves in a linear direction defined by the guide 16. The guide 16 is preferably arranged between the inlet port 2 and the outlet port 14. The guide 16 is advantageously cylindrical and contains a movable element 15 that carries a plurality of seal rings that slide on the guide 16.

  The movable element 15 is a first passage 17 which is in particular a conduit leading to the inlet 18 of the closure unit 13 and a concrete conduit which leads to the outlet 20 of the closure unit 13 defined in the head wall 6. A certain second passage 19 is defined (FIG. 2). In the open position shown in FIG. 2, the passage 17 communicates with the internal space 7 through the opening 21 defined by the guide 16, and the passage 19 passes through the opening 22 that is also defined by the guide 16. It leads to space 7. In particular, the opening 21 is closer to the outlet 20 in the longitudinal direction of the movement of the movable element 15 along the guide 16 than the opening 22.

  The movement of the movable element 15 and the position of the seal ring depend on the positions of the openings 21 and 22. In the position of FIG. 2, the seal rings 23 and 24 are separated in the longitudinal direction so as to be located on both sides of the opening 22. In the closed position, the third seal ring 25 located on the opposite side of the ring 24 with the ring 23 in between is disposed so as to face the ring 23 with the opening 22 in between.

  The movable element 15 further carries two seal rings 26, 27. When the movable element 15 is in the closed position, the seal rings 26 and 27 are separated in a predetermined direction so as to be located on both sides of the opening 21. The guide 16 has a continuous wall at least in the contact area with the seal rings 23-27 so that the openings 21, 22 are sealed from the inlet 18 and outlet 20 when the closure unit 13 is in the closed position. Also, in the open position, the seal ring 24 isolates the opening 22 from the inlet 18.

  The container 1 may be made by friction welding a part made by injection molding a plastic material. The bottom 3, the side wall 4 and the guide 16 are preferably made as a concave unit. The wall 6 is created as a single unit by molding. Further, the movable element 15 is mounted on the guide 16 in the closed position, and a predetermined amount of repair sealant liquid is poured into the hollow body defined by the bottom 3 and the side wall 4. Finally, the head wall 6 is pressed against the hollow body.

  In particular, a stop 28 is provided to determine the closed position of the movable element 15 during assembly, and the stop 28 is preferably arranged in the projection R of the bottom 3 defining the inlet port 2. .

  A stop 29 is provided for determining the open position of the movable element 15, preferably the stop 29 is defined by a tubular element 30 of the head wall 6 that is connected to the guide 16 and defines the outlet 20. Has been. The cylindrical element 30 defines a cavity 31 of the head wall 6 that faces the case 9. The end 32 of the flexible outlet tube 8 in the cavity 31 is preferably securely and non-removably mechanically connected to the head wall 6. The head wall 6 is advantageously provided with a connection part 33 in the cavity 31, the end part 32 being fitted into the connection part 33 and being fixable by a retaining ring.

  FIG. 3 shows a compressor unit 40 that can be connected to the container 1 and constitutes a repair and expansion kit for an inflatable article, preferably a pneumatic inflatable article.

  The compressor unit 40 includes a case 41 that houses an electric motor M and a compressor C (shown only schematically) driven by the electric motor M. In the lower part, a groove 42 for accommodating an electric cable 43 connected to a source of voltage supplied to the electric motor M is defined by the shell 40.

  At the top, an opening 44 is defined by the case 41. The opening 44 is connected to the compressor C and accommodates a protrusion R defining the inlet port 2 so that the inlet port 2 can receive a flow of compressed air. Further, the compressor unit 40 activates a relief valve (not shown) to activate the relief valve (not shown) when the pressure gauge 45, the push button 46 for turning on the electric motor M, and the pressure gauge informs the excessive pressure. And a push button 47 for preventing over-pressure of the fluid line and / or reducing the pressure of the pneumatic article. The fluid line of the compressor unit 40 includes passages and / or flow paths and / or conduits that deliver a flow of pressurized air to the opening 44.

  Further, the compressor unit 40 includes a flexible tube 48 connected to the compressor C in parallel with the opening 44 so that expansion and / or pressure adjustment can be performed even when the container 1 is not connected to the opening 44. In use, the flexible tube 48 is directly connected to the pneumatic article by the user, and an operation of adjusting the pressure is performed. Similarly, the flexible outlet tube 8 is also connected to the pneumatic article directly by the user.

  FIG. 4 shows the details of the mechanical and fluid connections between the container 1 and the compressor 40. In particular, the kit comprises a valve body 49 that is fluidly connected or fluidly connectable to the compressor C, and a holding interface 50 that maintains the container 1 in a usable position and connected to the compressor C. The valve body 49 is fluidly connected to the opening 44 and the flexible tube 48 so that the flexible tube 48 and the container 1 are in parallel with the compressor C.

  The shutter 51 of the valve body 49 is maintained in place by a spring 52 so that the opening 44 is fluidly closed and the compressor C is connected to the flexible tube 48. Therefore, when the electric motor M is turned on, the pressurized air can expand the pneumatic article via the flexible tube 48.

  FIG. 4 shows a further position of the shutter 51 where the compressor C is fluidly connected to the opening 44 and the flexible tube 48 is isolated from the compressor C to pressurize the container 1. Opening 44 and flexible tube 48 are fluidly isolated by seals 52 and 53 that selectively close passages 54 and 55, respectively. The passage 54 is fluidly connected to the opening 44 and the passage 55 is fluidly connected to the flexible tube 48. Therefore, the valve body 49 is a three-way valve and is a part of the fluid line of the compressor unit 40 together with the passages 54 and 55.

  The holding interface 50 is preferably connected to the valve body 49 so as to define at least the length of the passage 54. The holding interface 50 includes a movable insert 56 that selectively engages a recess 57 in the protrusion R that defines the inlet port 2 of the container 1. Accordingly, the concave portion 57 is a mechanical connection portion for connecting the container 1 to the support portion, specifically, the case 41 so that the container 1 is maintained in a use posture for injecting the sealant liquid.

  The holding interface 50 and the recess 57 are preferably configured such that the support 58 of the bottom 3 of the container 1 contacts the head wall of the case 41. The support 58 surrounds both the inlet port 2 and the opening 44 and may be a continuous annular shape or a discontinuous shape along a part of the circumference. The support portion 58 is spaced apart from the concave portion 57 in the longitudinal direction so that, for example, 50% or more of the weight of the container 1 is substantially applied to the head wall 59 in a usable state where the container 1 is connected to the compressor unit 40. It has a non-vertical surface, preferably a horizontal surface. The case 41 preferably comprises an upper shell 60 made by injection molding of a plastic material, the head wall 59 being part of the shell.

  The retention interface 50 is connected to the valve body 59 in a cold state to prevent damage to the seal 52, preferably by a threaded or snap connection that may be removable or non-removable. .

  As shown in FIG. 4, the holding interface 50 defines an annular sheet 61 that surrounds a portion of the passage 54 that can be fluidly connected to the inlet port 2. The annular sheet 61 accommodates the annular wall 12 when the container 1 is connected to the compressor 40.

  The container 1 is attached to the compressor 40 for injecting a sealant liquid in use. When the movable element 15 moves to the open position, the liquid level of the sealant liquid may be above or below the opening 21. The pressure inside the container 1 pushes the sealant liquid through the opening 22 near the bottom 3 to the outlet port 14. In order to allow a more effective flow of the sealant liquid to the opening 22, the bottom 3 is formed to converge to the opening 22, and the opening 22 is surrounded by a converging wall, as shown in FIG.

  With the container 1 and the kits 1 and 40 according to the present invention, the following advantages can be obtained.

  The connection interface with the compressor 40 is simplified. Also, the container 1 can be connected to the central portion of the compressor 40 without having to provide a seat or other interface for the flexible outlet tube 8.

  The support 58 and the recess 57 are arranged to radially define a particularly compact mechanical connection for the container.

  The container 1 is formed by friction welding in order to improve pressure resistance and reduce the risk of unintentional sealant liquid loss.

  Case 9 protects flexible outlet tube 8 until the container is used, and the user can easily see flexible outlet tube 8 through opening 10.

  Finally, it is clear that changes or modifications may be made to the container 1 and kit 1, 40 described and illustrated herein without departing from the scope of protection defined by the appended claims. is there.

  In particular, the valve body 49 and the holding interface 50 can also be used in a kit without a compressor and are suitable for any case connected to a source of pressurized air, for example an air brake system for heavy vehicles. In this case, the opening 44 is permanently connected to the fluid line, which is removably connected to the pressure source. The fluid line is provided in, for example, a shell such as the case 41, and the shell contributes to maintaining or maintaining the container 1 in a posture suitable for injecting the sealant liquid.

Claims (15)

Shells (3, 4, 6) defining an internal space (7) for the sealant liquid;
An inlet port (2) for introducing gas into the internal space (7) by pressurization;
An outlet port (14) for injecting the sealant liquid after pressurization of the inlet port (2);
The closed position where the sealant liquid is held in the internal space (7) and the pressure after the inlet port (2) is pressurized, the inlet port (2) and the outlet port (14) are connected to the internal space ( In a container for sealant liquid for repairing an inflatable article, preferably a pneumatic inflatable article, comprising a closure unit (13) configurable in an open position connected via 7)
The container, wherein the inlet port (2) and the outlet port (14) are located on opposite sides of the internal space (7).   The closure unit (13) includes an inlet (18) fluidly connected to the inlet port (2), an outlet (20) fluidly connected to the outlet port (14), and the inlet port (2). 2. Container according to claim 1, characterized in that it has at least one passage (17; 19) connecting the inlet (18) and the outlet (20) so that pressure is transmitted to the outlet port (14). . The closure unit (13) has a movable element (15) that slides along a guide (16),
3. Container according to claim 2, characterized in that the passage (17; 19) is defined by the movable element (15). Comprising a bottom (3) defining the inlet port (2) and a side wall (4) extending from the bottom (3);
A container according to claim 3, characterized in that the bottom (3), the side wall (4) and the guide (16) are manufactured as a single piece. The movable element (15) defines a further passage (19; 17);
The passage (17) fluidly connects the inlet (18) to the internal space (7);
5. Container according to claim 3 or 4, characterized in that the further passage (19) connects the internal space (7) to the outlet (20). The passage and the further passage (17, 19) are in fluid connection with the internal space (7) via first and second ports (21, 22), respectively.
The distance from the outlet port (14) of the first port (21) is shorter than the distance from the outlet port (14) of the second port (22). container.   The shell (3, 4, 6) includes a cylindrical element (30) that defines a stop (29) for determining the open position of the movable element (15) and is connected to the guide (16). The container according to any one of claims 3 to 6, wherein the container is characterized by that. The inlet port (2) is surrounded by a seal ring (11);
The container according to any one of claims 1 to 7, further comprising an annular wall (12) facing the seal ring (11) and surrounding the seal ring (11).   A connection portion (57) connected to a support portion (41) to determine the use posture of the container is provided, and the connection portion (57) is arranged between the inlet and the outlet with the inner space (7) interposed therebetween. 9. Container according to any one of claims 1 to 8, characterized in that it is arranged on the opposite side of any one of the ports (2, 14). The shell (3, 4, 6) comprises a head wall (6) defining a cavity (31);
10. A flexible outlet tube (8) having an end (32) mechanically connected to a head wall (6) in the cavity (31). The container according to item. A case (41);
Fluid lines (49, 54, 55) provided in the case (41) and adapted to be connected to the compressor units (M, C);
An opening (44) fluidly connected to the fluid line (49, 54, 55);
A holding part (50);
11. The container (1) according to any one of claims 1 to 10, wherein the container (1) is detachably engaged with a case (41) so that the inlet port (2) is A protrusion (R) connected to the opening (44) and connectable to the holding part (50) so that the flow of pressurized air can be transmitted from the fluid line (49, 54, 55) to the internal space (7) And an inflatable article repair and inflation kit (1, 40), preferably a tire. The container (1) includes a support portion (58) that comes into contact with the case (41) when the holding portion (50) engages with the protrusion (R).
12. Kit according to claim 11, characterized in that the support (58) surrounds the opening (44) and the inlet port (2).   The kit according to claim 12, wherein the holding part (50) and the protrusion (R) define a snap-in connection part. The case (41) comprises a shell (60) made by injecting a polymer material,
The kit according to any one of claims 11 to 13, wherein the support portion (58) contacts the shell (60). When dependent on claim 8, the holding part (50) comprises an annular sheet (61) surrounding the length (54) of the fluid line (49, 54, 55) connectable to the inlet port (2). Defined,
The kit according to any one of claims 11 to 14, wherein the annular sheet (61) accommodates the annular wall (12).

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